}
		}
	}

	// Formulating the result data set to be expected from ListObjects call inside the tests,
	// This will be used in testCases and used for asserting the correctness of ListObjects output in the tests.

	resultCases := []ListObjectsInfo{
		{
			IsTruncated: false,
			Prefixes:    []string{"unique/folder/"},
		},
		{
			IsTruncated: false,
			Objects: []ObjectInfo{

		}
	}
}

var long = flag.Bool("long", false, "run very long tests")

// TestFloatQuoSmoke tests all divisions x/y for values x, y in the range [-n, +n];
// it serves as a smoke test for basic correctness of division.
func TestFloatQuoSmoke(t *testing.T) {
	n := 10
	if *long {
		n = 1000
	}

	const dprec = 3         // max. precision variation

# PYCPP TESTS run a suite of Python and C++ tests to verify general correctness over
# the whole TF code base. These are usually run continuously or upon presubmit.
# CPU PYCPP:
test:linux_cpu_pycpp_test_filters --test_tag_filters=-no_oss,-oss_excluded,-oss_serial,-gpu,-tpu,-benchmark-test,-v1only

				goto Error
			}
		}
		x.setConst(e.Kind, e.Value)
		if x.mode == invalid {
			// The parser already establishes syntactic correctness.
			// If we reach here it's because of number under-/overflow.
			// TODO(gri) setConst (and in turn the go/constant package)
			// should return an error describing the issue.

	// oblet, in which case we compute the size to scan below.
	s := spanOfUnchecked(b)
	n := s.elemsize
	if n == 0 {
		throw("scanobject n == 0")
	}
	if s.spanclass.noscan() {
		// Correctness-wise this is ok, but it's inefficient
		// if noscan objects reach here.
		throw("scanobject of a noscan object")
	}

	var tp typePointers
	if n > maxObletBytes {

	// there is never more than that many arguments for a single line.
	// Note that even if we go over 64, it will still be correct - it
	// is just for efficiency, not correctness.
	args := make([]string, 64)

	// Compute total number of endpoint chains across all services
	// to get a sense of how big the cluster is.
	totalEndpoints := 0
	for svcName := range proxier.svcPortMap {

				goto Error
			}
		}
		x.setConst(e.Kind, e.Value)
		if x.mode == invalid {
			// The parser already establishes syntactic correctness.
			// If we reach here it's because of number under-/overflow.
			// TODO(gri) setConst (and in turn the go/constant package)
			// should return an error describing the issue.

	req, _ = NewRequest("POST", us, nil)
	client.Do(req) // Note: doesn't hit network
	matchReturnedCookies(t, expectedCookies, tr.req.Cookies())
}

// Just enough correctness for our redirect tests. Uses the URL.Host as the
// scope of all cookies.
type TestJar struct {
	m      sync.Mutex
	perURL map[string][]*Cookie
}

func (j *TestJar) SetCookies(u *url.URL, cookies []*Cookie) {

	// there is never more than that many arguments for a single line.
	// Note that even if we go over 64, it will still be correct - it
	// is just for efficiency, not correctness.
	args := make([]string, 64)

	for _, set := range ipsetWithIptablesChain {
		if _, find := proxier.ipsetList[set.name]; find && !proxier.ipsetList[set.name].isEmpty() {
			args = append(args[:0], "-A", set.from)

	routeHost := host.Name(rawRouteHost)
	ourListener := host.Name(r.Hostname)
	if len(ourListener) > 0 && !ourListener.IsWildCarded() {
		// Short circuit: this logic only applies to wildcards
		// Not required for correctness, just an optimization
		return true
	}
	if len(ourListener) > 0 && !routeHost.Matches(ourListener) {
		return false
	}
	for checkListener := range r.BannedHostnames {
		// We have 3 hostnames here: